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HS Code |
280173 |
| Compound Name | 1-Bromo-4-N-Heptylbenzene |
| Molecular Formula | C13H19Br |
| Molecular Weight | 255.20 g/mol |
| Cas Number | 106311-51-7 |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 321-323 °C |
| Density | 1.101 g/cm3 |
| Refractive Index | 1.515 |
| Purity | Typically ≥98% |
| Solubility | Insoluble in water; soluble in organic solvents |
| Storage Conditions | Store in a cool, dry place and keep container tightly closed |
As an accredited 1-Bromo-4-N-Heptylbenzene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 25g of 1-Bromo-4-N-Heptylbenzene is packaged in an amber glass bottle with a secure screw cap, clearly labeled. |
| Shipping | **Shipping Description for 1-Bromo-4-N-Heptylbenzene:** Ship in tightly sealed chemical containers, protected from light and moisture. Package according to local, national, and international regulations. Use secondary containment to prevent leaks. Label as a potentially hazardous organic compound. Ship via approved carriers for chemicals, and include safety documentation and MSDS. Handle with appropriate personal protective equipment. |
| Storage | **1-Bromo-4-N-heptylbenzene** should be stored in a tightly closed container, in a cool, dry, well-ventilated area, away from direct sunlight, heat sources, and incompatible substances such as strong oxidizers. Protect from moisture and physical damage. Ensure proper chemical labeling and secure storage to prevent unauthorized access. Follow all relevant safety and regulatory guidelines for hazardous chemicals. |
Applications of 1-Bromo-4-N-Heptylbenzene in Industrial Manufacturing1-Bromo-4-N-Heptylbenzene provides specific reactivity and hydrophobic chain properties critical to several key chemical industries. As the original manufacturer, we support downstream formulation and quality control through precise specification, batch documentation, and collaborative process development. Below are typical industrial application scenarios with technical details tailored for each sector. 1. Pharmaceutical Intermediate SynthesisLeading pharmaceutical companies employ 1-Bromo-4-N-Heptylbenzene in the multi-step synthesis of advanced intermediates. It serves as an aryl bromide source for Suzuki-Miyaura coupling, Grignard reactions, or palladium-catalyzed functionalization, often introducing long-chain alkyl groups to heterocyclic and aromatic frameworks. Downstream processors integrate this material at a late-intermediate stage, focusing on yield optimization and minimal side reaction. Precise stoichiometry, controlled temperature, and solvent selection are essential to meet stringent route development protocols. Documentation for traceability and impurity profile management aligns with customer needs in regulated environments. Effective purification impacts downstream process validation and registration with health authorities. Industry compliance standards
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2. Specialty Liquid Crystal Monomer ManufacturingMajor electronic materials producers utilize 1-Bromo-4-N-Heptylbenzene as a synthesis precursor in liquid crystal monomer production. The seven-carbon heptyl side chain confers specific melting point and mesophase stability required in advanced nematic and smectic liquid crystal compounds. Formulators introduce it during the assembly of biphenyl, terphenyl, or cyanobiphenyl monomers, enhancing tunability for physicochemical parameters relevant to display backplanes and optical shutters. Quality control includes monitoring trace halogen residues and controlling final chain length distribution to support consistent performance in downstream device integration. Industry compliance standards
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3. Performance Surfactant SynthesisIn the specialty surfactant industry, formulators use 1-Bromo-4-N-Heptylbenzene as a key feedstock for synthesizing hydrophobic-aromatic surfactant cores. The production of high-stability, nonionic, and amphiphilic surfactants for emulsion polymerization, agrochemical microemulsions, and specialty cleaning agents leverages the controllable chain length and bromine reactivity to produce branched or linear surfactant molecules. Material handling requires careful inerting to maintain safety and purity. Chain modification steps are designed to optimize micelle formation and dispersibility specific to industrial and technical cleaning sectors. Industry compliance standards
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4. Advanced Polymer Additive FormulationIn the advanced polymer sector, processors incorporate 1-Bromo-4-N-Heptylbenzene as a pendant-functionalized aromatic building block. Its integration during reactive extrusion, copolymerization, or polymer modification introduces tailored surface properties, increases compatibility with polar and nonpolar matrices, and supports chain end-capping or energy-dissipating design. Industrial users benefit from predictable reactivity and purity, allowing consistent dispersion or orientation within polymer backbones for use in engineering resins, specialty plastics, and composite blends. R&D and pilot-scale feedback ensures compliance with property retention, migration limits, and aging resistance targets for each industry protocol. Industry compliance standards
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Competitive 1-Bromo-4-N-Heptylbenzene prices that fit your budget—flexible terms and customized quotes for every order.
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The markets for custom synthetic chemicals rely on trust, precision, and the willingness to dig deep into both quality control and process development. 1-Bromo-4-N-Heptylbenzene serves as a reflection of how far dedicated chemical production has advanced in terms of capacity and reliability. Speaking from our manufacturing experience, it ties together methodical craftsmanship and careful monitoring that stems from years in organic chemistry synthesis.
Sourcing specialty intermediates remains a challenge for many users of fine chemicals, particularly in research and advanced manufacturing. Demand comes most commonly from the sectors developing unique performance polymers, specialty surfactants, and advanced materials for electronics. 1-Bromo-4-N-Heptylbenzene has found its place as a critical building block thanks to its well-defined para substitution and long heptyl chain, which enables syntheses that benefit from controlled reactivity and distinct physical properties.
We keep our process optimized with each production run. Handling hydrocarbons and bromination always requires respect for safety and a strong system for controlling side reactions. Over the years, our plant teams have built a batch workflow that reflects practical chemistry rather than textbook ideals: temperature needs watching, solvents demand careful handling, and purification must live up to modern analytical standards. Every drum starts as a bench-scale run in research, followed by rigorous scaling and re-optimization in pilot facilities before reaching full production.
The final product is a clear, liquid aromatic with the distinct structure of a para-brominated benzene and the extended chain of a heptyl group. High purity comes not only from selecting the right starting materials but also from trimming steps that might otherwise allow cross-contamination or produce undesired side products. Our lab uses NMR and GC-MS for every batch, benchmarking samples against published literature so our customers can focus on their work rather than troubleshooting reactants.
Over the years, we have seen our 1-Bromo-4-N-Heptylbenzene support development work in specialty coating resins, targeted surfactant systems, and high-performance plastics. Its unique molecular structure, with the heptyl tail extending from a para-brominated ring, enables selective further modification, whether you’re building alkylated biphenyls or creating custom liquid crystalline materials.
Direct feedback from our customers drives our process improvement. Materials science researchers seeking fine control over chain length distributions have commented on the consistency of carbon chain extension from batch to batch. Polymer specialists have noted that branching and chain termination stay predictable, which creates more reproducible properties in their end products. This is not a trivial achievement and comes from ongoing discussions about what downstream users actually encounter in their own synthetic workflows.
Many users ask how 1-Bromo-4-N-Heptylbenzene compares with other alkylated bromobenzenes or even more common brominated intermediates. What stands out in our experience is the value of the straight-chain, seven-carbon heptyl group attached to the aromatic ring in the para position. Basic chemistry textbooks tend to group alkyl bromides together, but in the process lab, the practical differences become clear.
Longer or shorter alkyl chains lead to distinct differences in solubility, reactivity, and compatibility with both solvents and end-use formulations. Customers working in advanced resins or surfactants often report that the C7 chain hits a "sweet spot" balancing hydrophobicity with processability. Going shorter with, for example, butyl groups, leads to less robust phase separation, while going longer (as with dodecyl) may complicate blending or downstream derivatization.
Unlike lower homologues, our 1-Bromo-4-N-Heptylbenzene maintains significant chemical handle flexibility without bringing excess steric hindrance. This subtlety in physical property profile often gets overlooked in spreadsheet-based chemical selection. User feedback suggests that substitution in the para position avoids unwanted cross-linkages and leads to more predictable reactivity during nucleophilic substitution or cross-coupling reactions. In our process, steric hindrance has turned out to be the pivot on which reproducibility turns; each carbon in the chain makes a material difference.
It doesn’t escape us as a manufacturer that many high-tech products live or die by the quality of a single synthetic intermediate. This is why merely achieving “spec compliance” isn’t enough for us, nor should it be for any company whose advances rest on consistent chemical building blocks. In our daily operations, we pay special attention to the achievements and missteps of those who came before us in aromatic bromination chemistry.
We have refined our purification steps to minimize trace halogenides and polybrominated byproducts. This means dozens of small, practical adjustments: tweaking reagent temperatures, switching to less reactive solvents, or even varying extraction timing when a solvent lot from a supplier changes. Every time we identify a minor impurity, our analytical teams work the full route backward to its likely source. Transparency with end users about both what’s in our product and what isn’t has led to trust that brings continued business.
Many buyers have expressed frustration with non-manufacturers who can’t provide documentation on trace impurities and variability from batch to batch. Our technical team fields questions on everything from storage stability to the impact of container material on long-term purity. The reality is, each lot is produced and tracked by its manufacturing batch record, and documentation is always an open book for our partners. Many a time, a single chromatogram has caught subtle inconsistencies early, saving everyone time and cost later down the line.
Scaling up aromatic alkylations with heptyl halide sources is tricky. Experienced chemists know the pitfalls all too well. Laboratory glassware does not provide real-world answers on temperature gradients, solvent hold-up, or the risk of “hot spots” that may not show up until moving to hundreds of liters. Our plant operators have guided scale-up with a close focus on reaction exotherm management, phase separations, and the effect of agitation on the purity and yield of the end-point.
With 1-Bromo-4-N-Heptylbenzene, limiting trace side-chain oxidation and avoiding ring bromination at undesired positions requires more than just careful addition of reagents. Heterogeneous mixing, residence time, and thorough in-process analytical testing are essential features of our batch workflow. Each process improvement is logged, and each challenge becomes a learning opportunity passed from technician to operator to quality manager. Over time, these lessons translate into fewer recalls and improved customer satisfaction.
It’s no coincidence that long-term users see fewer “mystery” peaks in their analytical results after switching to material directly from manufacturers with deep process control.
Inside the plant, no two manufacturing runs ever play out exactly the same way. Ambient humidity, subtle shifts in raw input quality, or the wear and tear of equipment all influence the finished batch. Our operations team gets prompt feedback from the plant floor, not after the fact. If something unique happens, whether sharp temperature changes in a reaction vessel or minor variances in bromine feed rates, we capture the data and assess its impact on both conversion and byproduct profiles.
Running bromination reactions at full production scale means working with challenging reagents under safety protocols that protect both operators and output purity. Our production chemists have refined methods for quenching, scouring, and downstream extractions that strip away viscous residues or incomplete conversions. Weekly reviews between plant and QC ensure any outliers are tackled before drums leave the warehouse.
Knowing what goes into the tank, how it behaves on a cold winter morning compared to a humid summer afternoon, and what to do when subtle shifts in appearance might signal an off-target byproduct—all these build the know-how that separates direct chemical manufacturers from traders or middlemen. That experience goes into reassuring customers their delivered 1-Bromo-4-N-Heptylbenzene matches the claims.
Customers working on key pharma, resin, or custom materials projects often require assurances that go well beyond a simple certificate of analysis. Consistency matters immensely. We archive not only our standard NMR, IR, and GC-MS spectra for every batch, but also keep years of chromatograms, impurity profiles, and even run conditions on file. The purpose is to quickly answer technical queries—such as why a single minor impurity might show up in a customer's intermediate synthesis downstream. Troubleshooting together makes our entire ecosystem stronger.
Some of the most demanding users—those in next-generation optics or advanced engineering materials—send back questions months after receiving their order. Our documentation, including full batch records and historical run data, shortens their troubleshooting time. On several occasions, through joint examination of run histories, we’ve tracked impurity problems back to things as subtle as trace contaminants in glassware washing solvents or even new liner materials for bulk containers.
Working with us means not just receiving a drum of product, but forming a knowledge partnership around it.
Production of organic bromine compounds demands respect for both occupational and environmental safety. On the shop floor, operators work under stringent air handling, bromine containment, and spill prevention measures. We go beyond regulatory minimums by running regular air quality monitoring and waste stream analysis. Every process modification considers not just worker exposure, but also the fate of off-spec product and waste solvents.
We invested early in closed-system transfers and efficient solvent recapture, based on both regulatory trends and the knowledge that safety-driven process improvements increase reliability. Plant teams monitor not just the batch vessel, but the total facility environment. Local environmental authorities have reviewed and audited our site many times; internal audits occur even more frequently.
Eco-responsible growth for us has never meant greenwashing. Our waste handling routines prioritize tracing all bromine streams, with byproducts neutralized or recycled through vetted suppliers. This way, we avoid surprises at the compliance review stage and can address customer questions about sustainability or waste minimization directly, with operational data rather than generic statements. The bottom line: each batch of 1-Bromo-4-N-Heptylbenzene includes not just product but a commitment to transparent, safety-focused manufacturing.
Some users require modifications to standard physical presentations. Bulk shipments, special drum sizes, or even changes in stabilizers and packaging occur frequently. Over the years, these requests have led us to develop modular process lines capable of adjusting real-time to customer feedback. Our facilities staff regularly convene with customer service and logistics teams, so unusual requirements reach the plant floor before production begins.
Minor requests—such as changes in headspace to minimize air contact, or shipping by reefer container for temperature-sensitive destinations—aren’t treated as afterthoughts. We believe every such procedure adds a small but important edge to long-term relationships. Customization doesn’t come from marketing, but from alignment between production, technical service, and the real-world needs of chemists who run the next leg of the synthesis.
Many buyers encounter a wall of generic product listings from brokers, with little evidence of how the material is truly made or tracked. Direct communication with the actual manufacturing team brings a different experience. Our hands-on work in handling bromine, interpreting batch operational data, and tracing impurity sources pays off each time a user hits an unexpected roadblock in their synthesis or processing lines.
Unlike the patchwork data that often surfaces from indirect sellers, our product narrative grows with real plant experience. Operators who see a pattern in lot-to-lot color, or quality chemists who recall a subtle odor change from one production season to another, frequently flag issues that algorithm-driven quality checks can’t predict. Each technical query from a customer triggers memory and records from years of similar runs, not just a database search.
We have witnessed firsthand the disruption users face when supply lines run thin, or batches wander in quality due to inconsistent sourcing. Direct access to manufacturing-base material adds resilience. Chemistry staff at end-user facilities often appreciate being able to reach an actual process chemist or plant engineer to discuss questions that arise over product performance, storage, or compatibility with new synthetic methods.
Over the years, as research and development teams shift focus or regulations change, we have updated both our raw inputs and process controls. Maintaining communication during these transitions cuts down on downtime and the frustrations of off-target syntheses. Several customers have shared stories of past deals with anonymous suppliers where technical problems stretched for weeks, with explanations elusive. Direct manufacturer contact, with layers of operational and analytical data behind every answer, replaces silence with clarity.
This puts us not only in the position of a vendor, but as ongoing partners in development and troubleshooting.
Our background as a chemical manufacturer shapes every decision. Instead of relying on stock phrases, we prefer to share what we’ve learned over the course of thousands of production hours. For years, improvements came step by step: new equipment for tighter temperature control, advanced process analytics, and more rigorous sampling strategies. The equipment operators and lab technicians who run these processes every day provide the real insight, from unexpected reactions to subtle changes in product appearance.
Constant readiness to pivot—sometimes due to a raw material disruption, sometimes because a customer brings forward a new requirement—keeps us sharp. We see ourselves not just as suppliers, but as collaborators in research and development work. Each new customer request expands our technical base and pushes us to refine how we deliver both product and service.
1-Bromo-4-N-Heptylbenzene reflects the sum of deliberate choices: how we source inputs, train teams, maintain equipment, and listen to—not just react to—customer needs. The field will continue to shift as new synthetic techniques evolve, and as stakeholder demands for transparency and safety become stricter. Our process teams and technical staff stand ready for those challenges. The product’s future depends on keeping trust high, information open, and never letting operational experience get sidelined by convenience or margin-driven shortcuts.
For anyone building the next generation of advanced materials, precision pharma intermediates, or performance chemicals, partnering directly with a manufacturer results in more than just reliable supply; it brings a wealth of practical, operational knowledge that can make or break the outcome of ambitious scientific projects. The craft, care, and continual learning behind 1-Bromo-4-N-Heptylbenzene come not just from formulas, but from people who know the difference between shipping material and building lasting value.